本文整理汇总了C++中Equipment::boilTime_min方法的典型用法代码示例。如果您正苦于以下问题：C++ Equipment::boilTime_min方法的具体用法？C++ Equipment::boilTime_min怎么用？C++ Equipment::boilTime_min使用的例子？那么, 这里精选的方法代码示例或许可以为您提供帮助。您也可以进一步了解该方法所在类Equipment的用法示例。
在下文中一共展示了Equipment::boilTime_min方法的1个代码示例，这些例子默认根据受欢迎程度排序。您可以为喜欢或者感觉有用的代码点赞，您的评价将有助于系统推荐出更棒的C++代码示例。
示例1: calculate
// TODO: There are a LOT of assumptions and simplifications here. Need to change that.
void OgAdjuster::calculate()
{
Equipment* equip;
double sg = 0.0;
double temp_c = 0.0;
double plato = 0.0;
double wort_l = 0.0;
double hydroTemp_c = 0.0;
double sugar_kg = 0.0;
double water_kg = 0.0;
double sg_15C = 0.0;
double sg_20C = 0.0;
double evapRate_lHr = 0.0;
double finalPlato = 0.0;
double finalVolume_l = 0.0;
double finalWater_kg = 0.0;
double finalUncorrectedSg_20C = 0.0;
double waterToAdd_kg = 0.0;
double waterToAdd_l = 0.0;
bool gotSG = false;
bool okPlato = true;
// Get inputs.
sg = lineEdit_sg->toSI();
plato = lineEdit_plato->toDouble(&okPlato);
temp_c = lineEdit_temp->toSI();
hydroTemp_c = lineEdit_calTemp->toSI();
wort_l = lineEdit_volume->toSI();
// Make sure we got enough info.
gotSG = sg != 0 && temp_c != 0 && hydroTemp_c != 0;
if( wort_l == 0 )
return;
if( ! gotSG && ! okPlato )
return;
if( recObs == 0 || recObs->equipment() == 0 )
return;
equip = recObs->equipment();
evapRate_lHr = equip->evapRate_lHr();
// Calculate missing input parameters.
if( gotSG )
{
sg_15C = sg * Algorithms::getWaterDensity_kgL(hydroTemp_c)/Algorithms::getWaterDensity_kgL(15) + Algorithms::hydrometer15CCorrection( temp_c );
sg_20C = sg_15C * Algorithms::getWaterDensity_kgL(15)/Algorithms::getWaterDensity_kgL(20);
plato = Algorithms::SG_20C20C_toPlato( sg_20C );
lineEdit_plato->setText( sg_20C ); //Event if the display is in Plato, we must send it in default unit
}
else
{
sg_20C = Algorithms::PlatoToSG_20C20C( plato );
}
// Calculate intermediate parameters.
sugar_kg = sg_20C * Algorithms::getWaterDensity_kgL(20) * wort_l * plato/(double)100;
//std::cerr << "sugar_kg = " << sugar_kg << std::endl;
water_kg = sg_20C * Algorithms::getWaterDensity_kgL(20) * wort_l * ((double)1 - plato/(double)100);
//std::cerr << "water_kg = " << water_kg << std::endl;
// Calculate OG w/o correction.
finalVolume_l = equip->wortEndOfBoil_l(wort_l);
finalWater_kg = water_kg - equip->boilTime_min()/(double)60 * evapRate_lHr * Algorithms::getWaterDensity_kgL(20);
//std::cerr << "finalWater_kg = " << finalWater_kg << std::endl;
//std::cerr << "boilTime = " << equip->getBoilTime_min() << std::endl;
//std::cerr << "evapRate_lHr = " << evapRate_lHr << std::endl;
//std::cerr << "waterDensity = " << Algorithms::getWaterDensity_kgL(20) << std::endl;
finalPlato = (double)100 * sugar_kg / (sugar_kg + finalWater_kg);
//std::cerr << "finalPlato = " << finalPlato << std::endl;
finalUncorrectedSg_20C = Algorithms::PlatoToSG_20C20C( finalPlato );
// Calculate volume to add to boil
finalPlato = Algorithms::SG_20C20C_toPlato( recObs->og() ); // This is bad. This assumes the post-boil gravity = og. Need account for post-boil water additions.
// postBoilWater_kg = batchSize - topUpWater;
// postBoilSugar_kg = Algorithms::SG_20C20C_toPlato( recObs->getOG() ) / 100.0 * batchSize * recObs->getOG() * Algorithms::getWaterDensity_kgL(20);
// finalPlato = 100 * postBoilSugar_kg / ( postBoilSugar_kg + postBoilWater_kg );
waterToAdd_kg = (double)100 * sugar_kg / finalPlato - sugar_kg - finalWater_kg;
waterToAdd_l = waterToAdd_kg / Algorithms::getWaterDensity_kgL(20);
// Calculate final batch size.
finalVolume_l += waterToAdd_l;
// Display output.
lineEdit_og->setText(finalUncorrectedSg_20C);
lineEdit_add->setText(waterToAdd_l);
lineEdit_batchSize->setText(finalVolume_l);
}